Raspberry Pi Processor Broadcom System-On-Chip BCM2835

EnOcean Pi connects energy harvesting wireless devices with the Raspberry Pi to help control networks and automation systems at home or in the workplace.

Raspberry Pi Processor Broadcom System-On-Chip BCM2835

Compute Modules (CM) and Compute Module IO Boards (CMIO): In each kit you get a Compute Module, an IO Board, adaptors to convert the CMIO board camera and display interfaces to use the official Raspberry Pi Camera (and display when available later this year), 5V power supply and a micro USB cable for flashing the eMMC from a host PC.

Pi-Top Expansion Plate The pi-top Expansion Plate is a versatile interface for any project. It delivers a range of voltages (up to 12 volts) and includes everything you need to drive the motors and servos in this kit. Includes an IMU with accelerometer, gyroscope and magnetometer.

Mechanical Drawing

The 7 Touchscreen Monitor for Raspberry Pi gives users the ability to create all-in-one, integrated projects such as tablets, infotainment systems and embedded projects. The 800 x 480 display connects via an adapter board which handles power and signal conversion

Raspberry Pi Camera Board: Omnivision OV5647 Color CMOS QSXGA (5-megapixel) Image Sensor with OmniBSI Technology

Rainbow LED: 18 color, clip on card three lights of red, orange, yellow, green, blue and white

The Compute Module IO Board is a simple, open-source breakout board that you can plug a Compute Module into. It provides the necessary power to the module, and gives you the ability to program the modules Flash memory, access the processor interfaces in a slightly more friendly fashion (pin headers and flexi connectors, much like the Pi) and provides the necessary HDMI and USB connectors so that you have an entire system that can boot Raspbian (or the OS of your choice).

CPU: Broadcom BCM2835, which can run at up to 1GHz.RAM: 512MBPower: 5V, supplied via micro USB connector, drawing 160mA (even when connected to an HD display).Dimensions: 65mm x 30mm x 5mmVideo & Audio: 1080P HD video output. Audio output via mini-HDMI connector.Storage: MicroSD card.Operating System: Linux, installed via NOOBS.

Introducing the Raspberry Pi Zero: Created by lady ada

The Model B+ is the higher-spec variant of the Raspberry Pi. It replaced the original Model B in July 2014. Compared to the Model B it has: More GPIO. The GPIO header has grown to 40 pins, while retaining the same pinout for the first 26 pins as the Model B. More USB. We now have 4 USB 2.0 ports, compared to 2 on the Model B, and better hotplug and overcurrent behaviour. Micro SD. The old friction-fit SD card socket has been replaced with a much nicer push-push micro SD version. Lower power consumption. By replacing linear regulators with switching ones weve reduced power consumption by between 0.5W and 1W. Better audio. The audio circuit incorporates a dedicated low-noise power supply. Neater form factor. Weve aligned the USB connectors with the board edge, moved composite video onto the 3.5mm jack, and added four squarely-placed mounting holes.

The compute module contains the guts of a Raspberry Pi (the BCM2835 processor and 512Mbyte of RAM) as well as a 4Gbyte eMMC Flash device (which is the equivalent of the SD card in the Pi). This is all integrated on to a small 67.6x30mm board which fits into a standard DDR2 SODIMM connector (the same type of connector as used for laptop memory)

Five years to the day since the launch of the Raspberry Pi (which sold a hundred thousand units in the first day), the Raspberry Pi Foundation has announced the Raspberry Pi Zero W, a new variant of Raspberry Pi Zero with wireless LAN and Bluetooth, priced at only $10. So what’s the story? In November 2015, the diminutive $5 entry-level Raspberry Pi, the Raspberry Pi Zero, was launched. This represented a fivefold reduction in cost over the original Model A: it was cheap enough that one was even stuck on the front cover of The MagPi, risking civil insurrection in newsagents up and down the land. Over the ensuing fifteen months, Zero grew a camera connector and found its way into everything from miniature arcade cabinets to electric skateboards. Many of these use cases need wireless connectivity. The homebrew “People in Space” indicator in the lobby at Pi Towers is a typical example, with an official wireless dongle hanging off the single USB port: users often end up adding a USB hub to allow them to connect a keyboard, a mouse and a network adapter, and this hub can easily cost more than the Zero itself. Zero W fixes this problem by integrating more functionality into the core product. It uses the same Cypress CYW43438 wireless chip as Raspberry Pi 3 Model B to provide 802.11n wireless LAN and Bluetooth 4.0 connectivity. Features: 1GHz, single-core CPU 512MB RAM Mini-HDMI port Micro-USB On-The-Go port Micro-USB power HAT-compatible 40-pin header Composite video and reset headers CSI camera connector 802.11n wireless LAN Bluetooth 4.0 The Zero W makes a better general-purpose computer because you’re less likely to need a hub: if you’re using Bluetooth peripherals you might well end up with nothing at all plugged into the USB port. And of course it’s a great platform for experimenting with IoT applications. Official case To accompany Raspberry Pi Zero W, we’ve been working with our friends at Kinneir Dufort and T-Zero to create an official injection-moulded case. This shares the same design language as the official case for the Raspberry Pi 3, and features three interchangeable lids: A blank one One with an aperture to let you access the GPIOs One with an aperture and mounting point for a camera The case set also includes a short camera adapter flexi, and a set of rubber feet to make sure your cased Zero or Zero W doesn’t slide off the desk.

The New Model A+ replaced the Model A in November 2014. The design is based around a Broadcom BCM2835 SoC, which includes an ARM1176JZF-S 700 MHz processor, VideoCore IV GPU, and 256 Megabytes of RAM. This revision A+ board features four mounting holes for easy installation, a built-in reset circuit, and can be powered via the USB data ports. The design does not include a built-in hard disk or solid-state drive, instead relying on an microSD card for booting and long-term storage. This board is intended to run Linux kernel based operating systems.